Jingxi Chen

I am a PhD student in the Computer Science Department at the University of Maryland, College Park. I am working with Prof. Yiannis Aloimonos and Cornelia Fermüller at Perception and Robotics Group. I also work closely with Prof. Christopher Metzler. During my master’s study I worked with Prof. Pratap Tokekar on using Reinforcement Learning in Multi-agent System research.
My research interest lies at the intersection of computer vision, imaging, and robotics, focusing on generative models, neural representations for motion in videos, and 3D vision for robotics.

Selected Publications (* denotes equal contribution)

Temporally Consistent Atmospheric Turbulence Mitigation with Neural Representations

Temporally Consistent Atmospheric Turbulence Mitigation with Neural Representations

ConVRT is an efficient INR framework for video-based turbulence mitigation that operates in test-time optimization manner

TimeRewind: Rewinding Time with Image-and-Events Video Diffusion

TimeRewind: Rewinding Time with Image-and-Events Video Diffusion

TimeRewind synthesizes the video backward into the pre-capture time with image-and-events video diffusion.

Active Human Pose Estimation via an Autonomous UAV Agent

Active Human Pose Estimation via an Autonomous UAV Agent

We leverage radiance fields to imagine different human views to find the best drone pose for aerial cinematography.

Microsaccade-inspired Event Camera for Robotics

Microsaccade-inspired Event Camera for Robotics

Inspired by microsaccades, we designed an event-based perception system capable of simultaneously maintaining low reaction time and stable texture.

CodedEvents: Optimal Point-Spread-Function Engineering for 3D-Tracking with Event Cameras

CodedEvents: Optimal Point-Spread-Function Engineering for 3D-Tracking with Event Cameras

CodedEvents is a novel method for optimal point-spread-function engineering for 3D-tracking with event cameras.

Proxmap: Proximal occupancy map prediction for efficient indoor robot navigation

Proxmap: Proximal occupancy map prediction for efficient indoor robot navigation

We present a self-supervised occupancy prediction technique, ProxMaP, to predict the occupancy within the proximity of the robot to enable faster navigation.

Multi-Agent Reinforcement Learning for Visibility-based Persistent Monitoring

Multi-Agent Reinforcement Learning for Visibility-based Persistent Monitoring

We present a Multi-Agent Reinforcement Learning (MARL) algorithm for the Visibility-based Persistent Monitoring (VPM) problem.


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